Zero machine downtime
Test high-voltage machines, CNC routers, and heavy mechanisms without maintenance bottlenecks.
VR Labs · Engineering
Virtual reality engineering modules spanning robotics, IoT, mechanical mechanisms, electrical machines, and civil structures that students can build, test, and iterate on — without expensive machinery or physical danger.
NEP 2020 Aligned · ATL Ready · 500+ Engineering Labs

Why Virtual Engineering
Test high-voltage machines, CNC routers, and heavy mechanisms without maintenance bottlenecks.
Every engineering student gets their own oscilloscope, robotic arm, and PLC programmer.
Simulate short-circuits, structural overloads, and chemical combustion with complete physical safety.
Real-time sensor logs, MATLAB-compatible CSV exports, and automated design validation.
The engineering library
Program 6-DOF industrial robot arms, kinematic inverse solvers, and autonomous path planners in high-precision WebGL virtual workspaces.

Wire microcontroller breadboards, sensor arrays, ESP32 modules, and wireless telemetry pipelines with live oscilloscope signal tracing.

Dissect four-stroke internal combustion engines, gear trains, hydraulic actuators, and wind turbine aerodynamics in exploded 3D views.

Conduct tensile strain tests on concrete beams, bridge truss deflection analyses, and total station topographical surveying virtually.

The library
Forward & Inverse Kinematics

Embedded Systems & C++

Finite Element Stress Deflection

Thermodynamics & PV Indicator

MQTT & Cloud Data Visualisation

Fluid Power Control & Valves
Meet 7thi
7thi guides future engineers through systematic debugging, structural safety limits, and circuit logic validation — stepping in when motors stall or circuits burn.
“The motor draw exceeds 2.5A. Which PWM duty cycle will bring it back into nominal torque range?”
Who it's for
B.Tech, M.Tech, and polytechnic programmes across Mechanical, Civil, Electrical, and CSE streams.
Hands-on maker modules mapped to NITI Aayog ATL tinkering challenges and regional hackathons.
Classes 8–12 introducing real-world coding, mechatronics, sensors, and design thinking.
Standards
Modules strictly map to AICTE model curricula, NBA Outcome Based Education (OBE) criteria, and NEP 2020 skill verticals.
Request a syllabus map for your institutionCommon questions
For procurement, IT, and curriculum-mapping questions, our academic team is one message away.
Talk to usMechanical, civil, electrical, electronics & communication, robotics, AI & IoT. Our simulations cover foundational labs (fluid mechanics, strength of materials, digital electronics) through advanced mechatronics.
Yes, 100%. Our platform includes dedicated ATL learning paths covering 3D printing design, microcontroller coding, sensors, and maker challenges aligned with AIM guidelines.
No. Everything runs via browser WebGL engines. Students can interact with CAD assemblies, slice models, and run physics simulations without installing software.
Yes. All student experiment logs, error iterations, and quiz completions map to course outcomes (COs) and program outcomes (POs) for automated NBA reporting.
In practice
Premier Technical Institutes
Eliminated hardware waiting queues in mechatronics labs, doubling student hands-on coding repetitions.
Read the case studyAtal Tinkering Lab Network
Equipped over 200+ schools with virtual breadboards and IoT prototypes before physical fabrication.
Read the case studyExplore other disciplines
Experience interactive virtual engineering labs tailored to your institutional syllabus.